The Microbial Metabolite Wuyiencin Potential Targets Threonine dehydratase in Didymella segeticola to Achieve Control of Tea Leaf Spot

菌丝体 生物 脱水酶 突变体 叶斑病 代谢物 分生孢子 体内 生物化学 园艺 基因 生物技术
作者
Yan-Yong Ma,Peiying Li,Wenjing Xie,Fenghua Liu,Dongxue Li,Atta Ur Rehman,Delu Wang,Jing‐Jiang Zhou,Yue Ma,Zhuo Chen
出处
期刊:Phytopathology [American Phytopathological Society]
标识
DOI:10.1094/phyto-06-24-0200-r
摘要

Tea leaf spot caused by Didymella segeticola is a disease that has recently been discovered in the tea plantations of Southwest China, and which has a significant negative impact on the yield and quality of tea leaves. Wuyiencin is a nucleotide antimicrobial that is effective against a range of fungal diseases. However, its mode of action is still unclear. The current study found that wuyiencin inhibited the mycelial growth of D. segeticola in vitro. Meanwhile, in vivo experiments confirmed that wuyiencin had a significant curative effect on tea leaf spot. Microscopic observation represented it damaged the organelles and nucleus in fungal cells. Reverse transcription quantitative PCR assays revealed that mycelium treated with wuyiencin at the half-maximal effective concentration (EC 50 ) dosage for 1 hour exhibited 3.23 times lower expression of Threonine dehydratase (Td) gene, which is responsible for producing pyruvate. The wild type (WT) strain had a 1.77-fold higher pyruvate concentration than that in the td mutant (P < 0.05). The td mutant was more sensitive than the WT to wuyiencin treatment, with the EC 50 value in the td mutant being 30.01 μg/ml, compared with 82.34 μg/ml in the WT. Molecular docking demonstrated that wuyiencin bound to Td, with a binding energy of −10.47 kcal/mol. Compared with the WT strain, wuyiencin significantly reduced ATP concentration of the td mutant strain at dosages of 80.0 and 160.0 µg/ml. In total, wuyiencin reduced Td activity, inhibited pyruvate production, and decreased ATP content in the phytopathogenic fungus, ultimately disturbing the growth of the mycelium.
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